Find Academic Supervisors

• Orthopaedic Research
• Tissue Engineering
• Regenerative Medicine
• +3 more

David Wood is a Professor at the University of Western Australia (UWA) in the Department of Surgery, affiliated with the UWA Medical School. His expertise spans orthopaedic research, tissue engineering, and musculoskeletal disorders. With over 210 research outputs and 16 led grants, his work bridges clinical practice and basic science, addressing topics like cartilage repair, tendon pathologies, and surgical outcomes. Education: BSc, MB BS, MS Lond., FRCS, FRACS, FAOrthA. Research Interests: Focuses on regenerative medicine, sports medicine, and biomechanics. Recent studies explore autologous chondrocyte implantation efficacy, genetic factors in athletic performance, and tendon inflammation mechanisms. Collaborative work in economic geology further expands interdisciplinary reach. Grants & Advising: Led projects on antibiotic-laden bone substitutes and bone metastasis modeling. Supervised 8 students. Collaborates with multidisciplinary teams in orthopedics and engineering. Labs/Teams: Involved in the Bone on a chip project and antibiotic-loaded bone allograft research. Active in UWA's Medical School and affiliated with global collaborations in orthopedics and geology.

Thomas TruskettView profile

Professor

• Self-Assembly
• Complex Fluids
• Nanoparticle Suspensions
• +7 more

Thomas Truskett is a Professor and Dick Rothwell Endowed Chair in Chemical Engineering at The University of Texas at Austin, with a secondary appointment in Physics. He leads the Truskett Research Group, focusing on interfaces, complex fluids, and colloidal systems. His work bridges statistical mechanics, soft matter physics, and nanotechnology, with applications in biomedical imaging and materials science. Truskett holds a B.S. from UT Austin (1996), M.A. and Ph.D. from Princeton (1998, 2001), and has held academic roles since 2002. His honors include AAAS and APS Fellowships, the O’Donnell Engineering Award, and NIH/NRSA grants. Research Interests: Self-assembly of nanoparticles, confined liquids, protein solutions, and plasmonic materials. Key Contributions: Developing models for colloidal gels, nanoparticle assembly, and high-concentration antibody viscosity reduction. Grants & Funding: Extensive NIH, NSF, and industry support for projects on biodegradable polymersomes and plasmonic metamaterials. His group has advised over 40 PhD students and postdocs, many now in academia and industry. Notable alumni include Professors at Texas A&M and University of Washington, and R&D leaders at Bristol-Myers Squibb and Dow.

• Cardiovascular Medicine
• Preventive Cardiology
• Hypertension
• +3 more

Paul Leeson is a Professor of Cardiovascular Medicine at the University of Oxford and Head of the Oxford Cardiovascular Clinical Research Facility. He is a Consultant Cardiologist at the John Radcliffe Hospital, specializing in Cardiovascular Imaging and Hypertension Management. As a Fellow of Wolfson College, he leads the Preventive Cardiology Research Group, focusing on early detection and prevention of cardiovascular disease in young populations, particularly those with hypertension risks linked to preeclampsia or preterm birth. His work integrates artificial intelligence (AI) to enhance diagnostic tools like echocardiography and improve patient outcomes. He holds leadership roles in national initiatives, including the NIHR Clinical Research Network and UK Biobank Imaging Advisory Board. Research priorities include novel biomarkers for early disease, clinical trials for cardiovascular prevention, and AI-driven innovations in imaging. Notable contributions include the POP-HT trial for postpartum blood pressure management and studies on exercise interventions in preterm-born adults. His collaborations span imaging and prevention networks, emphasizing translational research to bridge clinical practice and technological advancements. Publications highlight advancements in AI diagnostics, hypertension management, and cardiovascular risk assessment. He actively participates in guideline development for cardiovascular prevention and hypertension, ensuring evidence-based practices. His work underscores a commitment to integrating cutting-edge technologies and rigorous clinical research to address cardiovascular health challenges.

Betina IpView profile

Research Fellow

• Binocular Vision
• Neural Plasticity
• Neurochemistry
• +4 more

Dr Betina Ip is a Royal Society Dorothy Hodgkin Research Fellow and Hugh Price Fellow in Neuroscience at Jesus College, University of Oxford. She leads research at the Wellcome Centre for Integrative Neuroimaging within the Nuffield Department of Clinical Neurosciences. Her work focuses on binocular vision plasticity, neurochemistry, and their clinical implications in conditions like amblyopia. Education: MSc Neuroscience, University College London DPhil (Oxford), studying attentional modulations on binocular vision using MRI Research Interests: Investigates neural mechanisms of 3D perception, experience-dependent plasticity, and neurochemical signaling (GABA/glutamate) in binocular vision. Uses multimodal imaging (fMRI-MRS) and virtual reality to study visual learning and rehabilitation in adults with amblyopia. Key Projects: Amblyopia VR Study: Neural changes post-visual training Koala Study: Neural substrates of occlusion therapy in children Awards & Funding: Royal Society Dorothy Hodgkin Fellowship Supported by MRC and Fight for Sight Teaching & Mentoring: Supervises DPhil/MSc projects in neuroscience Mentors via the BIPOC STEM network and Women in Clinical Neurosciences Public Engagement: Authored a children's neuroscience book and advocates for positive research culture through leadership roles at the WIN Centre and Oxford.

Todd ParrishView profile

Professor

• Magnetic Resonance Imaging (MRI)
• Functional Neuroimaging
• Neurovascular Coupling
• +6 more

Todd Parrish is a Professor of Radiology and Biomedical Engineering at Northwestern University's McCormick School of Engineering. His research focuses on advancing neuroimaging techniques, particularly magnetic resonance imaging (MRI), and their application to understanding brain function and disease. Key areas include functional neuroimaging, cerebrovascular reactivity, and clinical MRI protocol development. Research Interests: MRI technology innovation Neurovascular coupling mechanisms Spinal cord imaging Cognitive aging and neurodegenerative diseases Intraoperative brain mapping Recent work emphasizes multimodal neuroimaging approaches to study brain networks in health and disease. His studies often integrate machine learning for diagnostic applications and explore the interplay between body physiology and central nervous system structure. Collaborative projects include the HEALthy Brain and Child Development Study and the SuperAging Research Initiative, focusing on resilient cognitive aging mechanisms. Advances in spinal cord fMRI and functional thermography have expanded intraoperative mapping capabilities. Key contributions include developing quantitative MRI protocols for spinal cord injury assessment and identifying biomarkers for conditions like degenerative cervical myelopathy and chronic post-stroke aphasia.

Michelle DriscollView profile

Associate Professor

• Soft Condensed Matter Physics
• Fluid Dynamics
• Material Science
• +3 more

MICHELLE DRISCOLL is an Associate Professor in the Department of Physics and Astronomy at Northwestern University, affiliated with the Weinberg College of Arts & Sciences. She holds a PhD from the University of Chicago (2014). Her research focuses on soft condensed matter physics, particularly the study of disordered, nonlinear soft materials like gels, pastes, and suspensions. Her lab develops novel techniques to probe material dynamics through emergent structure formation and advanced imaging. Education: PhD in Physics, University of Chicago (2014); Robert A. Millikan Fellowship (2010–2013). Research interests include fluid dynamics, non-equilibrium systems, colloidal suspensions, and gel mechanics. Her work bridges soft matter physics and fluid dynamics, emphasizing interdisciplinary approaches. Notable publications explore topics like hydrodynamic trapping of microrollers, phase coexistence in colloidal drops, and gel rupture mechanics. Awards include the 2023 Outstanding Referee Award (Physical Review Letters), 2022 Faculty Honor Roll (Northwestern Office of Undergraduate Research), and 2021 Soft Matter Emerging Investigator (Royal Society of Chemistry). She actively mentors students, including Shih-Yuan and Haley Shamah (Best Poster at CU*iP 2025). Driscoll’s lab participates in initiatives like the Han-sur-Lesse Soft Matter Summer School and collaborates on projects like the Kirigami d’Aria architectural exhibition in Venice (2025). She advocates for science policy, supporting movements like Stand Up for Science 2025.

Arthur HebardView profile

Professor

• Condensed Matter Physics
• Thin-film Structures
• Superconductivity
• +4 more

Arthur Hebard is a Distinguished Professor in the Department of Physics at the University of Florida, where he leads research in condensed matter experimental physics. He earned his PhD from Stanford University in 1971. His laboratory focuses on thin-film structures, exploring phenomena in superconductivity, magnetism, and nanoscale materials, with recent emphasis on molecular magnets and graphene heterostructures. Research interests center on the fabrication and characterization of thin films, including metals, semiconductors, superconductors, and complex oxides. Current projects investigate single-molecule magnets integrated with 2D materials, charge density waves, and memristive switching in oxide interfaces. His work bridges fundamental physics with device applications in spintronics and renewable energy. Publication analysis reveals key themes: quantum phase transitions in disordered systems (25%), graphene and 2D material functionalities (30%), oxide interface phenomena (20%), molecular magnetism (15%), and superconducting mechanisms (10%). Recent articles emphasize nanoscale characterization and heterostructure engineering. Scientific awards include the Oliver E. Buckley Condensed Matter Physics Prize (2015) for pioneering contributions to correlated electron systems. He has advised 22 PhD students (19 graduated, 3 current) and secured sustained NSF funding (Grants: 0101856, 0404962, 0704240, 1005301). The Condensed Matter Experimental Lab features thin-film deposition systems (sputtering, thermal sublimation), cryogenic transport measurements (1.4-400K, 7T), and in-situ characterization tools (SHIVA vacuum transfer system).

Pengcheng DaiView profile

Professor

• Condensed Matter Physics
• Neutron Scattering
• Quantum Spin Liquids
• +7 more

Pengcheng Dai is the Sam and Helen Worden Professor in the Department of Physics & Astronomy at Rice University . His research focuses on experimental condensed matter physics, particularly using neutron scattering to study correlated electron materials such as quantum spin liquids, superconductors, and kagome lattice systems. He holds a BS in Physics from Zhengzhou University (1984) and a PhD in Experimental Condensed Matter Physics from the University of Missouri-Columbia (1993). His work emphasizes neutron diffraction, muon spin relaxation (μSR), and other advanced spectroscopic techniques to explore emergent phenomena in complex materials, including fractionalized excitations in spin ices, unconventional superconductivity in kagome metals, and charge density wave (CDW) ordering in magnetic systems. Key themes include flat band physics, topological band structures, and the interplay between magnetism and electronic transport. Recent studies have investigated strain-tunable superconductivity in CsV₃Sb₅, magnetic excitations in van der Waals ferromagnets like CrGeTe₃, and the interplay between CDW and magnetic orders in FeGe. His research also addresses nematicity in iron-based superconductors and the role of spin-orbit coupling in topological materials. Notable experimental platforms include neutron scattering at facilities such as the Spallation Neutron Source (SNS) and muon beamlines. He collaborates extensively on material synthesis and theoretical modeling to interpret electronic and magnetic phase diagrams.

• Theoretical Condensed Matter Physics
• Strongly Correlated Electron Systems
• Quantum Criticality
• +5 more

Qimiao Si is the Harry C. and Olga K. Wiess Professor of Physics and Astronomy at Rice University, affiliated with the Wiess School of Natural Sciences. He earned his B.S. from the University of Science and Technology of China (1986) and his Ph.D. in Physics from the University of Chicago (1991). His research focuses on theoretical condensed matter physics, particularly strongly correlated electron systems, including quantum criticality, iron-based superconductivity, and topological metals. He has pioneered theories such as local quantum criticality and the Weyl-Kondo semimetal state, advancing beyond Landau’s framework. Key achievements include contributions to understanding magnetic heavy fermion systems, iron-based superconductors, and topological states driven by electron correlations. He has published over 215 articles in top journals and delivered 370+ invited talks. Awards include the Humboldt Research Prize (2012) and Vannevar Bush Faculty Fellowship (2023). He has organized major conferences, including SCES’07 and Aspen Winter Conferences on High-Temperature Superconductivity. His work bridges quantum criticality and superconductivity, with recent studies exploring nematicity in FeSe, orbital-selective Mott transitions, and topological semimetals. He serves on editorial and advisory boards, including the Aspen Center for Physics and Journal of Physics: Condensed Matter.

Lam YuView profile

Associate Professor

• Molecular Electronics
• Nanotechnology
• Condensed Matter Physics
• +5 more

Lam Yu is an Associate Teaching Professor in the Department of Physics and Astronomy at Rice University. He holds a BS in Physics from Trinity University (2000), an MS in Physics from Rice University (2003), and a PhD in Physics from Rice University (2006). His research focuses on molecular electronics, nanotechnology, and condensed matter physics, with particular emphasis on charge transport mechanisms in molecular assemblies, Kondo physics in single-molecule transistors, and surface chemistry of nanostructured materials. His work bridges experimental and theoretical approaches to understand quantum phenomena at the nanoscale. Dr. Yu’s contributions span investigations into the electronic properties of metalloporphyrin islands, Coulomb blockade effects in molecular junctions, and the interplay between bias voltage and electronic conduction in nanostructures. His studies on graphene oxide nanosheets explore biomedical applications, including size-dependent cellular uptake mechanisms. Additionally, earlier work in astrophysics includes optical and radio observations of quasars, contributing to understanding extragalactic phenomena. No scientific awards or grants are explicitly mentioned in the provided text. Dr. Yu’s teaching and research activities emphasize interdisciplinary approaches, integrating nanotechnology, quantum mechanics, and materials science. His laboratory focuses on advancing nanoscale device fabrication and characterization techniques, though specific lab or team details are not detailed here.

Frederick C. MacKintoshView profile

Professor

• Biological Physics
• Soft Matter Physics
• Polymer Networks
• +3 more

Frederick C. MacKintosh holds the Abercrombie Professorship in Chemical and Biomolecular Engineering at Rice University, with secondary appointments in Chemistry and Physics and Astronomy. He is also Director of Graduate Studies in Chemical and Biomolecular Engineering. His career spans roles at the University of Michigan and Vrije Universiteit Amsterdam. Dr. MacKintosh earned his Ph.D. in Theoretical Physics from Princeton University (1989) and B.S. degrees in Physics and Mathematics from the University of Washington (1984). His research explores fundamental material properties of biological and soft matter systems, including biopolymer gels, active networks, and mechanical critical phenomena. Key contributions include models of elasticity in biopolymer systems, micro-rheology techniques, and studies of non-equilibrium dynamics in cellular and synthetic networks. His work bridges theoretical physics with experimental insights, focusing on emergent mechanical behaviors and phase transitions in disordered materials. Recent studies emphasize compression stiffening mechanisms, criticality-driven reinforcement in networks, and the interplay of magnetic fields with colloidal systems. His lab employs advanced microrheology and machine learning tools to analyze complex material behaviors at multiple scales. MacKintosh’s interdisciplinary approach integrates polymer physics, cell biology, and materials science to address questions in soft matter mechanics.

Brad MahonView profile

Associate Professor

• Cognitive Neuroscience
• Semantic Memory
• Visual Object Processing
• +3 more

Brad Mahon serves as an Associate Professor at Carnegie Mellon University's Neuroscience Institute with joint affiliation in Psychology. As a core faculty member, he directs interdisciplinary research bridging cognitive neuroscience and clinical neurology, focusing on neural mechanisms of semantic memory and object processing. Research Focus: Dr. Mahon's work centers on semantic memory organization , visual object representation , and speech-motor coordination . His lab employs fMRI , direct electrical stimulation , and lesion studies to investigate how parietal-occipital networks support object-directed actions and how brain injury disrupts semantic systems. Key contributions include characterizing blindsight mechanisms and identifying distinct motor speech networks . Analysis of his 2022-2025 publications reveals three converging trends: (1) Development of clinical neurorehabilitation frameworks (e.g., FLUORESCE stroke trial), (2) Elucidation of biomechanical principles in traumatic brain injury through strain modeling, and (3) Creation of multidisciplinary semantic glossaries to standardize cognitive neuroscience terminology. His work increasingly integrates neuroengineering approaches with fundamental cognitive questions.

Martine J. SmitView profile

Professor

• G Protein-Coupled Receptors (GPCRs)
• Oncogenic Signaling Networks
• Drug Discovery
• +3 more

Prof. Martine J. Smit is a Full Professor in the division of Medicinal Chemistry within the Faculty of Science at Vrije Universiteit Amsterdam. She holds dual appointments in Chemistry and Pharmaceutical Sciences and the AIMMS institute. Her research focuses on G protein-coupled receptors (GPCRs), particularly their roles in oncogenic signaling networks and drug discovery, with a strong emphasis on nanobody-based therapies targeting human and viral chemokine receptors. Smit has led multiple high-impact projects including Horizon2020 initiatives like ONCORNET2.0 and public-private collaborations such as the MAGNETIC project. Education: Dr. Smit earned her PhD in Molecular Pharmacology from VU University Amsterdam (1995) and completed a postdoc at Mount Sinai School of Medicine in New York, focusing on oncogenic signaling. Her academic qualifications include a Pharmacochemistry Master’s (1991) and a European Baccalaureate (1985). Research Interests: Her work integrates biochemistry, pharmacology, and structural biology to understand GPCR activation, dimerization, and EV biology. Key areas include: Constitutive GPCR activity and endosomal signaling Targeting viral-encoded GPCRs (e.g., HCMV US28) Development of nanobody-based therapeutics Chemokine receptor modulation in cancer and immune disorders Grants & Awards: Recipient of NWO Vidi (2004), Vici (2013), and KNAW fellowship (1999-2003). Honored with the Organon Award (2007) and Galenus Prize (2002). Coordinated major EU projects including ONCORNET (2015-2019) and ONCORNET2.0 (2020-2024). Lab & Collaborations: Active in public-private partnerships with pharmaceutical/biotech firms. Her lab develops nanobodies for GPCR targeting and explores exosome-mediated signaling. Supervised 17 PhD theses, fostering a global network of early-career researchers.

James HodgesView profile

Assistant Professor

• Solid State Chemistry
• Inorganic Chemistry
• Heterogeneous Catalysis
• +5 more

James Hodges is an Assistant Professor of Chemistry at The Pennsylvania State University, affiliated with the Eberly College of Science. His research focuses on solid-state chemistry, inorganic materials, and energy-related applications such as thermoelectrics and heterogeneous catalysis. He leads the Hodges Research Group, which develops novel inorganic solids, including microporous oxides, metal chalcogenides, and multi-anion materials. Hodges holds a Ph.D. in Chemistry from Penn State, a B.S. from Rider University, and postdoctoral experience at Northwestern University and Honeywell UOP as a Senior Scientist. His group emphasizes synthesis techniques, material characterization, and applications in energy and catalysis. Recent work includes advancements in layered chalcogenides, thermoelectric performance optimization, and antiviral surface treatments for medical materials. Students in the group gain skills applicable to diverse career paths in academia and industry. Notable lab news includes student awards (e.g., PSU Chemistry Excellence in Graduate Research Award for Ayat) and conference participations. The group collaborates broadly, with publications in high-impact journals like Journal of the American Chemical Society and Chemistry of Materials .

• Computational Methods
• Materials Science
• Condensed Matter Physics
• +2 more

Surasree Sadhukhan serves as a Post Doctoral Researcher in the Department of Physics and Astronomy at George Mason University, specializing in computational approaches to quantum materials and condensed matter systems. Her work bridges theoretical modeling with experimental material properties, focusing on emergent phenomena in novel compounds. Her research program centers on Computational Methods and Materials Science, with deep expertise in topological quantum materials, spintronics, and magnetic systems. She employs first-principles calculations to investigate electronic structures, phase transitions, and transport properties in transition metal compounds, chalcopyrites, and 2D heterostructures. Key focus areas include altermagnetism, Weyl semimetals, and thermoelectric phenomena, where her computational designs predict tunable quantum states for next-generation electronic applications. Analysis of her 11 recent publications (2020-2025) reveals a cohesive research trajectory in topological phases and quantum magnetism. Her work demonstrates consistent innovation in modeling spin-orbit coupling effects, pressure-driven property tuning, and multifunctional electrocatalysts, with strong emphasis on Berry curvature engineering and disorder-induced topological transitions. The publications show increasing methodological sophistication in atomistic simulations of quantum materials heterostructures. Scientific Awards No awards or fellowships were documented in the provided information Advising and Grants Student advising information not disclosed No grant funding details provided in available materials Labs and Teams Research conducted within the Department of Physics and Astronomy infrastructure Specific laboratory affiliations or team structures not specified